The Ph.D. in Civil and Environmental Engineering at Tufts University is a research-oriented doctoral program for students who want to develop deep expertise in a specific area of civil or environmental engineering. Students work closely with faculty mentors on individualized programs of study in areas such as environmental health, environmental and water resources engineering, geosystems engineering, and structural engineering and mechanics.
Offered through the Department of Civil and Environmental Engineering, the program is available in Medford/Somerville in on-campus and hybrid formats. Full-time and part-time study options are available, and the average duration is 3–5 years.
This program is designed for students with strong academic preparation who want to conduct independent research in civil and environmental engineering. Applicants should be prepared for doctoral-level study that requires sustained research, close collaboration with a faculty mentor, and a commitment to scholarly work.
Students entering the program are expected to meet the general admission requirements of and gain acceptance into the Department of Civil and Environmental Engineering, and hold a bachelor’s or master’s degree in engineering or a related field.
Doctoral study in civil and environmental engineering is highly individualized. Students develop a program of study with faculty guidance, combining coursework and independent research in a chosen area of specialization. Doctoral requirements include department-specific coursework, successful completion of the qualifying examination, and completion of a doctoral dissertation.
Research and study areas include:
The Department of Civil and Environmental Engineering at Tufts University applies engineering and science to help society anticipate and respond to global challenges involving infrastructure, the environment, water, energy, climate, health, and communities.
Faculty expertise spans areas such as environmental health, water resources, geosystems, offshore wind, natural hazards, earthquake engineering, air quality, structural health monitoring, climate resilience, resilient infrastructure, sustainable systems, and engineering education.
Doctoral students work closely with faculty mentors to develop individualized programs of study and independent research agendas. This model supports deep specialization while helping students build the research, writing, and communication skills needed for advanced scholarly work.
Civil and environmental engineering research at Tufts addresses the connections among infrastructure, the environment, and people. Students may explore topics related to water, earth systems, structures, air quality, environmental health, climate adaptation, natural hazards, or resilient communities.
The program draws on engineering, environmental science, public health, urban systems, data analysis, materials, mechanics, and policy-relevant problem solving. This interdisciplinary foundation helps students study complex challenges that do not fit within a single technical field.
Tufts’ Medford/Somerville campus places students near the infrastructure, environmental, planning, consulting, research, and public-sector communities of Greater Boston. This setting can support professional connections, collaborative research, and exposure to regional challenges in climate, water, transportation, energy, and the built environment.
A Ph.D. in Civil and Environmental Engineering can support advanced research, teaching, technical leadership, consulting, public-sector, and innovation-focused career paths. Graduates may pursue opportunities across academia, industry, government, research, consulting, infrastructure, environmental engineering, climate resilience, and sustainability.
Potential paths may include:
The U.S. Bureau of Labor Statistics reports that employment for civil engineers is projected to grow 5% from 2024 to 2034. The median annual wage for civil engineers was $99,590 in May 2024.
Applicants are expected to hold a bachelor’s or master’s degree in engineering or a related field.
Full-time PhD students within the School of Engineering often receive a tuition scholarship. Applicants should review current tuition and aid information and contact gradadmissions@tufts.edu with questions.
No. GRE General Test scores are not required.
Applicants can apply online through Tufts Graduate Admissions Portal. Required materials typically include transcripts, a resume or CV, letters of recommendation, and a statement of purpose. International applicants may also need to submit English proficiency documentation. Visit the admissions page for current deadlines and application requirements.
Research/Areas of Interest: geotechnical earthquake engineering, seismic hazard mapping, natural hazards
Research/Areas of Interest: multiphase flow and transport in porous media, liquid-liquid and solid-liquid equilibria, sols and emulsions, surfactants and interfaces, mass transfer, biotransformation, emerging contaminants
Research/Areas of Interest: structural engineering, concrete design, bridge analysis and design, structural analysis/design
Research/Areas of Interest: drinking water quality and toxic materials, groundwater monitoring
Research/Areas of Interest: Mathematical models of material behavior; Nonlinear magneto- and electromechanical interactions; Biomechanics of soft materials; Rubber elasticity and inelasticity
Research/Areas of Interest: Air pollution monitoring, mobile monitoring, air pollution modeling, ambient air quality, indoor air quality, air pollution control, air pollution exposure, air pollution epidemiology
Research/Areas of Interest: geotechnical, laboratory testing, automation, soil behavior, physical properties, mechanical properties, material science
Research/Areas of Interest: environmental and occupational epidemiology, environmental health and safety
Research/Areas of Interest: Offshore Wind Energy Structural Design Earthquake Engineering
Research/Areas of Interest: urban air population, transportation emissions
Research/Areas of Interest: Water Diplomacy, Principled Pragmatism, Data Driven Decision Making, Climate and Health, Remote Sensing, Flood Forecasting
Research/Areas of Interest: design, behavior, and modeling of concrete structures
Research/Areas of Interest: • Hydrologic Extremes • Water Resources in a Changing World • Energy Systems Modeling • Robust Adaptive Planning
Research/Areas of Interest: hydrology, water resources systems, IWRM
Research/Areas of Interest: Probabilistic system identification of structures, signal processing, Bayesian inference, model updating, structural dynamics, earthquake engineering, uncertainty quantification, verification and validation of computational models.
Research/Areas of Interest: cognition and learning sciences, science education, engineering education, diversity and identity, technology and education, language and cognition, multicompetence
Research/Areas of Interest: Bridge structural health monitoring, building train-induced vibrations, nondestructive testing of full-scale structures, fatigue life prediction of structures with nonproportional multi-axial loading.
Research/Areas of Interest: 1) Infrastructure management during uncertain contexts 2) Understanding public perceptions towards the built environment 3) Sustainable water technology adoption
Research/Areas of Interest: Environmental health, environmental epidemiology, air pollution, extreme weather, exposure science, data analytics
Research/Areas of Interest: Science focused on energy, development and environmental management. Computational modeling of electrical grid integration of renewable energy and storage. Interaction of science and policy in academia, industry and government
Research/Areas of Interest: Research focuses on sustainable development and innovative engineering education, at times combining the two. Specific research projects include: 1) service-based education and how it can be best assessed and utilized in engineering and 2) waste minimization and reuse of traditional waste materials.
Research/Areas of Interest: - Resilient and equitable infrastructure - Impacts of extreme events (e.g., drought, flood, wildfire) in a changing climate on infrastructure and communities - Climate adaptation of infrastructure - Slopes, dams, and levees - Unsaturated soil mechanics - Multi-physics (e.g., hydro-mechanical, thermo-hydro-mechanical) processes in soils - Analytical and numerical methods in geotechnical engineering
Research/Areas of Interest: applied mathematics and mechanics for geophysical and engineering problems
Research/Areas of Interest: epidemiologic methods